1.5 GeV storage ring

The MAX IV 1.5 GeV storage ring is based on a compact double-bend achromat lattice for the production of bright soft x-ray and UV radiation. The storage ring is a…

A cloudy route for shipping in the Arctic

combustion in, for example, black carbon, soot or sulphates. Shippers meet the compliancy standard today with use of sulphur removing devices, namely scrubbers, or fuel with low sulphur content (FSC)….

Low Density Matter

…and at MAX IV we strive to meet the experimental needs of our ever -expanding and -evolving community. LDM-relevant beamline We offer access to a number of LDM-relevant beamlines (highlighted…

Deciphering corrosion resistance of superalloys

…availability for beamtime and complex, unfamiliar methods of data analysis for new users, among others. The current study demonstrates the exciting possibilities of X-ray measurements at lightsources like MAX IV….

User Guide

…for your research! Start your user journey with us by learning more about what to do in preparation for your final application. Click the “Full overview” button for the complete…

Selection process for research projects

…in the first Recruitment Call of Doctoral Students. 13 additional research projects have been chosen following below described selection process. Those research projects will be offered in the second Recruitment…

Beamlines

MAX IV operates 16 beamlines with an opportunity to add more in the future. The beamlines are situated on our 1.5 GeV (R1) or 3 GeV (R3) storage rings or…

Post beamtime

…policy pages for the formal statement. Björling et al., Optics Express (2020), for the coherent nanofocused beam. Johansson et al., Journal of Synchrotron Radiation (2021), for the beamline instrumentation and…

Publications

…2018 Initial Operation of the NanoMAX Beamline at MAX IV 10.1017/S1431927618013600 Describes the beamline early performance right up to start of regular user operation. 2017 First x-ray nanoimaging experiments at…